This repository contains the official implementation for the paper Vamos: Versatile Action Models for Video Understanding, including codes to train Vamos on Video QA tasks (NeXT-QA, IntentQA, and Perception Test) and EgoSchema zero-shot evaluation.
To install requirements, run:
git clone git@github.com:brown-palm/Vamos.git
cd Vamos
conda create -n vamos python=3.8
conda activate vamos
sh setup.sh
All the codes for training Vamos for video QA tasks are under the finetune
folder.
cd finetune
mkdir pretrained
mkdir data
You can download our preprocessed datasets (NExT-QA, IntentQA, Perception Test) at here. Put them in data
. Also, you can download original LLaMA at here, and put the checkpoint in pretrained
.
finetune/pretrained
|─ llama
| |─ 7B
| | |─ consolidated.00.pth
| | └─ params.json
| └─ tokenizer.model
| :
|─ llama2
| :
└─ llama3
:
finetune/data
|─ nextqa
| |─ train.csv
| |─ val.csv
| |─ test.csv
| |─ llava_v15_7b_n6.json
| |─ llava_v15_13b_n6.json
| └─ clipvitl14.pth
|─ intentqa
| |─ train.csv
| |─ val.csv
| |─ test.csv
| |─ blip2_n6.json
| └─ clipvitl14.pth
└─ ptest
|─ train.csv
|─ val.csv
|─ llava_v15_7b_n6.json
|─ llava_v15_13b_n6.json
└─ clipvitl14.pth
After preparing the datasets and LLaMA weights, excute the following codes under finetune
folder. For pure visual representation, 40G A100/A6000 is recommended, for text and text + vision, 80G A100 is recommended. --batch_size
and --accum_iter
can be adjusted according to GPU number and memory size.
# text representation
torchrun --rdzv_endpoint 127.0.0.1:1234 --nproc_per_node 4 train.py --model 8B --max_seq_len 1200 --batch_size 2 --epochs 10 --warmup_epochs 2 --bias 3.5 --tau 100. --max_feats 6 --dataset nextqa --blr 9e-2 --weight_decay 0.14 --accum_iter 8 --use_cap --llama_model_path ./pretrained/llama3/ --output_dir ./checkpoint/nextqa_cap_ep10_llama3 --project_name nextqa
# visual representation
torchrun --rdzv_endpoint 127.0.0.1:1234 --nproc_per_node 4 train.py --model 8B --max_seq_len 128 --batch_size 8 --epochs 5 --warmup_epochs 2 --bias 3.5 --tau 100. --max_feats 6 --dataset nextqa --blr 9e-2 --weight_decay 0.14 --accum_iter 2 --use_vis --llama_model_path ./pretrained/llama3/ --output_dir ./checkpoint/nextqa_vis_ep5_llama3 --project_name nextqa
# vision + text
torchrun --rdzv_endpoint 127.0.0.1:1234 --nproc_per_node 4 train.py --model 8B --max_seq_len 1200 --batch_size 2 --epochs 10 --warmup_epochs 2 --bias 3.5 --tau 100. --max_feats 6 --dataset nextqa --blr 9e-2 --weight_decay 0.14 --accum_iter 8 --use_cap --use_vis --llama_model_path ./pretrained/llama3/ --output_dir ./checkpoint/nextqa_vis_cap_ep10_llama3 --project_name nextqa --alter_train
# text representation
torchrun --rdzv_endpoint 127.0.0.1:1234 --nproc_per_node 4 train.py --model 8B --max_seq_len 512 --batch_size 8 --epochs 5 --warmup_epochs 2 --bias 3.5 --tau 100. --max_feats 6 --dataset intentqa --blr 9e-2 --weight_decay 0.14 --accum_iter 2 --use_cap --llama_model_path ./pretrained/llama3/ --output_dir ./checkpoint/intentqa_cap_ep5_llama3 --project_name intentqa
# visual representation
torchrun --rdzv_endpoint 127.0.0.1:1234 --nproc_per_node 4 train.py --model 8B --max_seq_len 128 --batch_size 8 --epochs 5 --warmup_epochs 2 --bias 3.5 --tau 100. --max_feats 6 --dataset intentqa --blr 9e-2 --weight_decay 0.14 --accum_iter 2 --use_vis --llama_model_path ./pretrained/llama3/ --output_dir ./checkpoint/intentqa_vis_ep5_llama3 --project_name intentqa
# vision + text
torchrun --rdzv_endpoint 127.0.0.1:1234 --nproc_per_node 4 train.py --model 8B --max_seq_len 1200 --batch_size 8 --epochs 10 --warmup_epochs 2 --bias 3.5 --tau 100. --max_feats 6 --dataset intentqa --blr 9e-2 --weight_decay 0.14 --accum_iter 2 --use_cap --use_vis --llama_model_path ./pretrained/llama3/ --output_dir ./checkpoint/intentqa_vis_cap_ep10_llama3 --project_name intentqa --alter_train
# text representation
torchrun --rdzv_endpoint 127.0.0.1:1234 --nproc_per_node 4 train.py --model 8B --max_seq_len 1200 --batch_size 2 --epochs 10 --warmup_epochs 2 --bias 3.5 --tau 100. --max_feats 10 --dataset ptest --blr 9e-2 --weight_decay 0.14 --accum_iter 8 --use_cap --llama_model_path ./pretrained/llama3/ --output_dir ./checkpoint/ptest_cap_ep10_llama3 --project_name ptest
# visual representation
torchrun --rdzv_endpoint 127.0.0.1:1234 --nproc_per_node 4 train.py --model 8B --max_seq_len 256 --batch_size 8 --epochs 5 --warmup_epochs 2 --bias 3.5 --tau 100. --max_feats 10 --dataset ptest --blr 9e-2 --weight_decay 0.14 --accum_iter 2 --use_vis --llama_model_path ./pretrained/llama3/ --output_dir ./checkpoint/ptest_vis_ep5_llama3 --project_name ptest
# vision + text
torchrun --rdzv_endpoint 127.0.0.1:1234 --nproc_per_node 4 train.py --model 8B --max_seq_len 1200 --batch_size 2 --epochs 10 --warmup_epochs 2 --bias 3.5 --tau 100. --max_feats 10 --dataset ptest --blr 9e-2 --weight_decay 0.14 --accum_iter 8 --use_cap --use_vis --llama_model_path ./pretrained/llama3/ --output_dir ./checkpoint/ptest_vis_cap_ep10_llama3 --project_name ptest --alter_train
Pretrained Vamos-LLaMA3 checkpoints are provided: NeXT-QA, IntentQA, and Perception Test.
From the training command, simply replace train.py
to eval.py
and add --resume your/checkpoint.pth
, for example:
# Eval NeXT-QA with pure text representation
torchrun --rdzv_endpoint 127.0.0.1:1234 --nproc_per_node 4 eval.py --model 8B --max_seq_len 1200 --batch_size 2 --epochs 10 --warmup_epochs 2 --bias 3.5 --tau 100. --max_feats 10 --dataset nextqa --blr 9e-2 --weight_decay 0.14 --accum_iter 8 --use_cap --llama_model_path ./pretrained/llama3/ --output_dir ./checkpoint/nextqa_cap_ep10_llama3 --project_name nextqa --resume checkpoint/nextqa_cap_13b_llama3.pth
All the codes for are under the zero_shot_egoschema
folder.
# zs inference with OpenAI GPTs (GPT-4o by default)
python egoschema_zs.py --output_name gpt4o_result.json --openai_key {your-openai-key}
# evaluate on the 500 subset
python eval_subset.py --pred_file gpt4o_result.json
# generate submission file to eval the full set
python gen_submission.py --pred_file gpt4o_result.json
This repo is built upon LLaMA-Adapter and Flipped-VQA.
@misc{wang2023vamos,
title={Vamos: Versatile Action Models for Video Understanding},
author={Shijie Wang and Qi Zhao and Minh Quan Do and Nakul Agarwal and Kwonjoon Lee and Chen Sun},
year={2023},
eprint={2311.13627},
archivePrefix={arXiv},
primaryClass={cs.CV}
}